Automated water treatment trailer for processing multiple fluids simultaneously

ABSTRACT

A secure automated water treatment trailer and method of inserting chemical in a pipeline, the trailer having a frame with at least one axle and a tongue, a base, a plurality of connected walls, a weather proof top engaging each of the plurality of connected walls opposite the base forming an enclosure, a pair of locking doors, a plurality of discharge ports, a plurality of suction ports, a charging port, a skid, a plurality of a controller in communication with each of the pumps and a network, a plurality of pressure gauges, a generator, a plurality of valves, and a plurality of back pressure valves. The secure automated water treatment trailer automatically processes multiple fluids simultaneously into the pipeline. Each fluid has fluid characteristics and a specific gravity.

CROSS REFERENCE TO RELATED APPLICATION

The current application claims priority to and the benefit of U.S. Provisional Patent Application Ser. No. 62/491,024 filed on Apr. 27, 2017, entitled “WATER TREATMENT TRAILER FOR AUTOMATICALLY PROCESSING MULTIPLE FLUIDS SIMULTANEOUSLY”. This reference is hereby incorporated in its entirety.

FIELD

The present embodiment generally relates to an automated water treatment trailer for automatically processing multiple fluids simultaneously.

BACKGROUND

A need exists for a mobile system for processing multiple fluids simultaneously with fluid characteristics and specific gravity.

The present embodiments meet these needs.

BRIEF DESCRIPTION OF THE DRAWINGS

The detailed description will be better understood in conjunction with the accompanying drawings as follows:

FIG. 1A depicts the back view of an automated water treatment trailer connected to an adjacent structure according to one or more embodiments.

FIG. 1B shows a perspective view of the automated water treatment trailer according to one or more embodiments.

FIGS. 1C-1D depict another embodiment of the automated water treatment trailer.

FIG. 2A depicts a detail of the plurality of pumps connected to the controller according to one or more embodiments

FIG. 2B depicts a detail of a pump controller according to one or more embodiments.

FIG. 3 depicts a diagram of the trailer connected to a network for remote control of the trailer from client devices according to one or more embodiments.

FIG. 4 is a diagram of the steps of a method according to an embodiment.

The present embodiments are detailed below with reference to the listed Figures.

DETAILED DESCRIPTION OF THE EMBODIMENTS

Before explaining the present apparatus in detail, it is to be understood that the apparatus is not limited to the particular embodiments and that it can be practiced or carried out in various ways.

Specific structural and functional details disclosed herein are not to be interpreted as limiting, but merely as a basis of the claims and as a representative basis for teaching persons having ordinary skill in the art to variously employ the present invention.

The present invention relates to an automated water treatment trailer for automatically processing multiple fluids simultaneously wherein each fluid has fluid characteristics and specific gravity.

The automated water treatment trailer that is also a secure locking trailer contains a frame with at least one axle, a tongue for connecting the frame to a tow vehicle.

The automated water treatment trailer stops casualties of operators by providing a portable shelter for the operator from sun, hailstorms, sandstorms, and lightening while in the field.

The automated water treatment trailer contains all fluids inside the trailer so that should a leak occur, the fluid is contained in the trailer and does not contact the ground causing ground contamination. The automated water treatment trailer stops environmental hazards from happening to the earth.

The automated water treatment trailer provides a safer way to pump chlorine dioxide as a liquid, and not as a highly volatile gas which is not only safer for the operators, and can prevent explosions proximate a well.

The automated water treatment trailer can also stop fires from occurring when gaseous chlorine dioxide is used, by simply having the chlorine dioxide as a liquid.

The automated water treatment trailer enables older workers to obtain shade and protection from the elements as they monitor the pumping process.

SUMMARY OF THE INVENTION

The invention relates to a trailer that has a plurality of connected walls engaging the base are mounted to the frame.

A weather-proof top engages each of the plurality of connected walls opposite the frame forming an enclosure.

A pair of locking doors are mounted into one of the plurality of connected walls.

A plurality of discharge ports are mounted in one of the connected walls. Additionally, a plurality of suction ports equal to the quantity of discharge ports are mounted in one of the connected walls. Each suction port is connected to a chemical tote mounted on an adjacent structure.

A charging port is mounted in one of the connecting walls for charging a client device.

A skid can be mounted in the enclosure.

A plurality of pumps are mounted in the enclosure, such as to the skid, and connected in parallel.

A controller, such as a computer, is in communication with each of the pumps and a network.

The automated water treatment trailer has a plurality of pressure gauges. Each pressure gauge measures discharge fluid flowing to a pump and in communication with the controller.

A generator or other power supply is electrically connected to the plurality of pumps, the controller, and the charging port.

The automated water treatment trailer has a manifold to which is connected plurality of ball valves. Each ball valve is mounted to engage one of the plurality of suction ports. The manifold engages a water pipe.

In embodiments, the automated water treatment trailer has a plurality of back pressure valves. Each back pressure valve is mounted between one of the ball valves and a suction port. The secure locking trailer, when connected between a discharge fluid source and a water pipe, can automatically provide different fluid flows at remotely controllable pressures using fluid characteristics and specific gravity and pressure in the water pipe.

The following terms are used herein:

The term “automated” refers to a device that can run without human intervention other than start and stop.

The term “fluid” as used herein refers to liquid chemicals or combinations of liquid and particulate that remains flowable, or combinations of liquid and gas vapor, that remains flowable as a liquid.

The term “fluid characteristic” refers to a fluid temperature, a fluid volatility, a fluid reactivity at ambient temperatures, a fluid acidity, a fluid viscosity, fluid density, surface tension, and thermal conductivity.

The term “specific gravity” refers to the ratio of the density of a fluid to the density of a reference fluid; equivalently, it is the ratio of the mass of a fluid to the mass of a reference fluid for the same given volume. Apparent specific gravity is the ratio of the weight of a volume of the fluid to the weight of an equal volume of the reference fluid.

The term “trailer” refers to a portable, moveable structure that preferably has wheels and a towable tongue and optionally may have brakes, and lights.

Turning now to the Figures, FIGS. 1A-1D depict the automated water treatment trailer 8 according to one or more embodiments.

The automated water treatment trailer 8 (shown in FIG. 1A) is connected to an adjacent structure 35, such as a secondary trailer for automatically processing multiple fluids simultaneously from a plurality of chemical totes 33 a-33 e contained in the adjacent structure.

In this embodiment, the additional structure 35 carries water 13 used for flushing the plurality of chemical totes 33 a-33 e.

Between the chemical totes 33 a-33 e and the automated water treatment trailer 8 are a plurality of chemical tote valves 57 a through 57 e.

The automated water treatment trailer 8 sucks chemicals selectively from the chemical totes to treat fluid 11 in a water pipe 60.

Each fluid 11 in a water pipe 60 is treated with chemicals from the chemical totes 33 a-33 e using a model that utilizes fluid characteristics and specific gravity of the fluid 11 in the water pipe 60.

The automated water treatment trailer 8 is a secure locking trailer.

The automated water treatment trailer 8 has a frame 10. The frame can be eight feet wide by sixteen feet long. Each trailer is specifically designed to be towable without need for a road permit for extra wide or extra long loads. The frame 10 can range in width from 5 feet to 8 feet. The frame can range in length from 10 feet to 16 feet.

The frame can be made from channel steel. The frame 10 can be made from square tubing that can be from two inches to three inches in width and from two inches to three inches in height with a hollow center in some embodiments. In other embodiments, the square tubing can be solid. Components of the frame can be welded together in an embodiment, or can be clamped or screwed or riveted in other embodiments.

The frame 10 can be formed from channel steel.

The frame 10 is to be of a size that is street legal, and strong enough to be pulled by a tow vehicle without a permit.

At least one axle 12 a is mounted to the frame 10 and supporting the frame. The at least one axle supports a pair of tires 16 a, 16 b.

In embodiments, two axles 12 a and 12 b are depicted (see FIG. 1B). Each axle 12 a and 12 b has a pair of tires, with one tire mounted on either end of the axle.

The axles 12 a and 12 b can be of different sizes to support different weights applied to the frame.

In an example, an axle 12 a can range in size from a single-axle to 6-axles, 13 feet 6 in high, 53 feet 0 in long.

Multiple axle trailers provide a greater weight capacity than a single axle trailers. In some cases, the trailers can have a tandem axle at the rear of the trailer. Axles are typically made from SAE grade 41xx steel

The axles may have brakes 17, which can be actuated by the tow vehicle. The brakes can be for each wheel, or for pairs of wheels. The brakes can be pneumatic, hydraulic or electronic.

In embodiments, the automated water treatment trailer 8 with lights, which can be powered and actuated by the tow vehicle, including running lights 15 a, brake lights 15 b, and turning lights 15 c. The trailer may have clearance lights 15 d. The trailer may have fender lights 15 e. The lights are typically powered by the prime mover hauling the trailer, but in some cases, there may be security lights 15 f on the trailer run by the on-board power supply, which can be a generator to provide security to the trailer.

The frame has a tongue 14 for connecting the frame to the tow vehicle.

The tongue 14 can be triangular shaped.

The tongue 14 can be welded to the frame.

The tongue 14 can be made from channel steel or square tubing and can be powder coated or painted. The coating or paint can be a static charge resistant material, to prevent the attraction of lightening to the tongue. In embodiments, the entire trailer can be grounded and painted with a coating that reduces static charge build up.

The tow vehicle, which is also known as a “prime mover” can be a SUV, a pick up or a similar truck for towing. The tow vehicle can be a forklift. A bobtail is typically too large, instead a smaller all-terrain vehicles (ATV) can be used to tow the trailer to a remote site.

The automated water treatment trailer is designed to be lightweight for towing, so that an ATV does not need additional larger wheels, or a larger tread, or extra strong brakes to use while towing the trailer.

The overall automated water treatment trailer, without chemicals is contemplated to weight from one short ton to three short tons.

In embodiments, a base 20, creating a floor, can be mounted to the frame 10. Operators can stand on the base inside the trailer and monitor pumping.

The base 20 can be similar to a wall of a steel cage with a flooring material over the steel portions. An operator can safely stand on the flooring material, which can be plywood, or sheets of metal.

The base 20 can be the width of the trailer and the length of the trailer not including the tongue. In embodiments, the base can be shorter than the length of the trailer, enabling a power supply or generator to rest on the frame without being contained in the wall portion of the trailer.

In another embodiment, the base 20 can be welded over the frame.

The base 20 can be made from an explosion proof plate, such as steel plate with a thickness from one-half inch to one inch, and capable of sustaining a crash without deforming. Keeping the trailer lightweight is paramount, so keeping the base lightweight is also critical, hence a thickness of one inch or less.

The base 20, in still other embodiments, can be a rectangular frame made up of four base beams connected together with four attached side beams.

Each side beam could be attached to an intersection of two base beams at an angle of 90 degrees. Four beams connected in parallel to the base beams form a top, and the top is connected to each of the side beams forming a reinforced “cage” similar to a roll cage in race cars to protect the equipment inside the automated water treatment trailer in case of an accident.

In yet another embodiment, the base 20 can be a solid plate installed over the frame of the trailer, such as with bolts, enabling the top portions of the trailer to be removable and re-installable in a modular fashion depending on the needs of the customer.

The trailer has a plurality of connected walls 22 a, 22 b, and 22 d. A fourth wall, 22 c is not viewable in this Figure.

In embodiments, the connected walls 22 a, 22 b, and 22 d can be mounted around the side beams of a base as described above.

The plurality of connected walls 22 a, 22 b, and 22 d is solid. In embodiments, the plurality of connected walls 22 a, 22 b, and 22 d can be made from plywood. Each wall can be the same height. It is contemplated that the walls can range in height from 6 feet to 8 feet, such as 7 feet in height.

However, in embodiments, the front wall may be a stepped configuration, providing an extension for protection, over a power supply or generator mounted external of the wall, and simultaneously providing a storage area above the generator or power supply for spare parts and tools.

The trailer has a weatherproof top 24 engaging each of the plurality of connected walls opposite the base forming an enclosure 26.

The weatherproof top 24 can be made from a solid material, such as sheet metal, wood, or a lightweight strong non-deforming polymer plastic, such polyvinyl chloride.

In another embodiment, the weatherproof top 24 can be made from ballistic material, such as ballistic grade tent material, to reduce weight of the trailer while preventing rocks and other debris from entering the enclosure.

The thickness of the weatherproof top 24 if made from a solid material is from one-fourth inch to one-half inch.

The weatherproof top 24 can be further coated with a white sealant to not only reflect heat but also provide a weathertight seal with the walls.

In embodiments, two locking doors 28 a and 28 b are formed in the connected walls.

The locking doors can have locking devices 79 a and 79 b. The locking devices can be a latch with padlock.

The locking doors 28 a and 28 b can be hinged, or a sliding barn-like door, and can be a metal hollow reinforced door.

In another embodiment, the locking doors 28 a and 28 b can be a rolling hurricane shutter that rolls up and down, and collapses into a case. The door embodiment can provide an additional lightweight feature.

The hurricane shutter embodiments, provides enormous security to equipment in the trailer when used with a solid weatherproof top. In this embodiment, the trailer can withstand up to a category 1 hurricane winds without deforming, provided the trailer is tied down securely and does not roll away.

A plurality of discharge ports 30 a-30 e and a plurality of suction ports 32 a-32 e can be mounted in the same connected wall.

The suction ports 32 a-32 e can be mounted on a different connected wall opposite the discharge ports 30 a-30 e.

In another embodiment, the suction ports and the discharge ports can be mounted to the same connected wall (see FIG. 1B).

The quantity of discharge ports 30 a-30 e equals the quantity of suction ports 32 a-32 e.

Each discharge port 30 a can have a diameter from 0.25 inch to 1 inch, such as 0.5 inch.

Each suction port 32 a is connected through the walls. Each suction port 32 a can have a diameter from one-fourth inch to two inches, such as one inch.

The discharge ports 30 a-30 e and the suction ports 32 a-32 e can be threaded on an inner diameter of each port.

A hose fitting threads to each of the discharge ports 30 a-30 e and suction ports 32 a-32 e. The hose fitting threads engage a conduit that flows, in the case of the suction ports, from a chemical tote mounted on an adjacent structure. The conduit, in the case of the discharge port, connects to a manifold 89 that is mounted on a water pipe.

Each suction port 32 a is connected to one of the chemical totes 33 a-33 e mounted on an adjacent structure 35, which is shown to be a trailer (see FIG. 1A), but could be a skid mounted unit.

A suction conduit 38 a-38 e is mounted between each chemical tote 33 a-33 e and suction port. A discharge conduit 39 a-39 e is mounted between each discharge port 30 a-30 e and the manifold 89.

The suction conduit 30 a can be made from a flexible chemical hose, having an inner diameter between one-half inch and three inches.

The plurality of chemical totes 33 a-33 e is used for supplying chemical to the manifold 89.

For example, the chemical totes 33 a-33 e can include biocides, such as glutaraldehyde, sold under the brand name GLUTARAL™ among others, and acting as a disinfectant. The biocide is applied as a liquid.

Glutaraldehyde is effective against a range of microorganisms including spores.

From 25 parts per million to 300 parts per million of the biocide can be used based on the total amount of the final formulation going into the manifold.

In embodiments, other chemical totes include a scale inhibitor, such as phosphonic scale inhibitors made by Performance Chemical Company of Midland, Tex. under brand number PH-322™.

From 50 parts per million to 500 parts per million of the scale inhibitor can be used based on the total amount of the final formulation going into the manifold scale inhibitor.

In embodiments, other chemical totes include a stabilized chlorine dioxide in liquid form.

The stabilized chlorine dioxide would be used in amount from 25 ppm to 500 ppm based on the total amount of the final formulation going into the manifold.

Still other chemical totes may include corrosion inhibitors, paraffin inhibitors, clay stabilizers, hydrogen sulfide scavengers and antioxidants.

The manifold that is mounted to the water pipe and in fluid connection with the discharge ports 30 a-30 e, which can allows from two to five injection points into the manifold 89.

The manifold 89 can be made from 10 inch steel pipe.

The flow rate through the manifold 89 can range from one-half barrels per minute to 100 barrels per minute.

In embodiments, the automated water treatment trailer 8 has a charging port 34 mounted in one of the connecting walls for providing energy to a removable client device, such as a cell phone, a laptop or similar device. The charging port 34 can charge portable devices, such as a 110-volt connection and can charge devices with a USB connection. Multiple charging ports can be used for operators to charge their laptops and cell phones simultaneously, particularly in case of emergency, allowing continuous connectivity to a home office.

The charging port 34 can connect to the onboard power supply 50, which can be a battery bank recharged by a solar cell array.

In another embodiment, the charging port 34 can be external to the trailer.

On top of the base 20 or the frame if no base is used, a skid 45 is installed, which can be in the shape of a table or L-shaped structure for supporting machines contained in the enclosure 26. The skid 45 can be removably fastened in the enclosure 26. The skid can be made from steel.

In embodiments, a plurality of pumps 36 a-36 e can be installed over the skid 45.

The plurality of pumps can be connected in parallel to each other each receiving chemicals from a different chemical tote of the adjacent structure 35.

In embodiments, the trailer and the plurality of pumps 36 a-36 e are electrically connected to a power supply 50.

The pumping rate of each pump 36 a-36 e can range from 0.5 gallons per hour to 250 gallons per hour. In embodiments, the pumps 36 a-36 e can be remotely controlled by connecting to a cell phone of an operator. In another embodiment, the pumps can be remotely controlled by a wired pendant station, with on, off, and an ability to increase or reduce flow rates by an operator.

A controller 40 is installed in the automated water treatment trailer that is in communication with each of the pumps 36 a-36 e.

In embodiments, the pumps 36 a-36 e, controller 40 and the charging port 34 can connect to the power supply 50. The power supply can be a generator, such as a gas generator.

Also, the power supply 50 can be another portable power supply such as solar cells mounted to the outside of the enclosure connected to a battery bank mounted inside the automated water treatment trailer.

Connected to each pump 36 a-36 e is a pressure gauge 44 a-44 e.

The pressure gauges 44 a-44 e can measure from one psi to 350 psi as the pumps move the chemicals to the discharge port.

Exemplary pressure gauges 44 a-44 e can be made by Prominent Pumps of Pittsburgh, Pa.

Each pressure gauge 44 a-44 e measures discharge fluid flowing from the plurality of pumps.

In embodiments, the manifold 89 can be connected a plurality of valves 52 a-52 e that connects to discharge ports 30 a-30 e. Each valve 52 a-52 e is fluidly connected to one of the plurality of suction port 32 a-32 e.

Each valve 52 a-52 e can connect to one of a plurality of back pressure valves 54 a-54 e.

In an embodiment, the valve 52 a-52 e can be a ball valve, a check valve, a butterfly valve, a rotary valve or a three way valve.

Each back pressure valve 54 a-54 e is mounted between one of the valves and a suction port.

The automated water treatment trailer connects between a discharge fluid source and a water pipe to automatically provide different fluid flows at remotely controllable pressures using fluid characteristics and specific gravity and pressure in the water pipe.

FIG. 2A depicts a detail of the plurality of pumps connected to the controller which are mounted inside the trailer.

The plurality of pumps 36 a-36 e are connected in parallel and in this embodiment shown mounted to a skid.

In embodiments, a controller 40 is in communication with each of the pumps and further in communication bidirectionally with a network.

The controller 40 and the pumps 36 a-36 e are electrically connected to a power supply 50 which can be a diesel generator.

In embodiments, each pump 36 a-36 e is connected to a plurality of pressure gauges 44 a-44 e.

Each pump 36 a-36 e can have a separate pump controller 80 a-80 e.

The power supply 50 may connect to a plurality of surge protectors 31 a-31 e. The surge protectors 31 a-31 e can protect each pump.

The surge protector can be a General Electric surge protector for AC power surges.

FIG. 2B depicts a detail of a pump controller 80.

The pump controller 80 contains a display 82, a flow meter, 83, a pump stroke counter 84 (showing 14 strokes have been counted), a power indicator 85 which can be a light that is on, when the pump is on, an increase flow button 86, a decrease flow button 87, and an alarm indicator 88 which indicates when the pump is operating less than or greater than preset limits. The alarm indicator can be a light.

The display 82 can be a touch screen display.

The flow meter 83 quantifies bulk fluid movement. Fluid flow can be measured in a variety of ways. Positive-displacement flow meters accumulate a fixed volume of fluid and then count the number of times the volume is filled to measure flow. Other flow measurement methods rely on forces produced by the flowing stream as it overcomes a known constriction, to indirectly calculate flow. Both types of flow meters can used herein. Flow may be measured by measuring the velocity of fluid over a known area.

The pump rate of flow may be modified using the formula to convert Barrels per minute and ppm to Gallons per hour to adjust flow rate on the pump display. The formula, which is GPH=(bbls/min)*42*ppm1000000*60 establishes the correct rate to set the pump. Stroke length and stroke time also need to be set to precisely measure the correct amount of chemical/fluid pumped.

FIG. 3 depicts a diagram of the automated water treatment trailer 8 with a controller 40 powered by a power supply 50 in wireless communication with the network 42 for remote control of the trailer from client devices 99 a and 99 b.

The controller can further communicate with a network that further communicates with a plurality of client devices 99 a and 99 b for remote control, all simultaneously.

The client device 99 a can be a laptop, a cell phone, a cloud based processor, a tablet, or another wearable computer.

The controller 40 can be a programmable logic circuit, or a laptop, or another portable processing device that has processor in communication with data storage that is a computer readable device with non-evanescent memory, and a display.

The controller 40 provides bidirectional communication with a network.

The network 42 can be a satellite network, a global communication network, or a cellular network.

FIG. 4 is a diagram of the steps of a method according to one or more embodiments.

The following is an exemplary method for automated treatment of water in a pipeline.

The method for automated treatment of water in a pipeline can include, but is not limited to the steps described below. The method can be utilized by a person of ordinary skill in the industry, and is not limited to a particular order or sequence.

The method involves connecting suction ports to chemical totes using suction conduits, as shown in box 200.

The method involves priming up suction conduits connected to suction ports by opening chemical tote valves connected in series to chemical totes, as shown in box 204.

The method involves priming up discharge conduits connected to discharge ports by placing discharge conduits into an empty bucket and priming each pump with connected suction and discharge conduits with hydrostatic pressure, as shown in box 208.

The method involves allowing the bucket to partially fill, as shown in box 209.

The method involves removing each discharge conduit from a partially filled bucket, as shown in box 212.

The method involves connecting each discharge conduit to a manifold, as shown in box 216.

The method involves sequentially starting operation of each pump and initiating chemical flow from the chemical totes simultaneously, as shown in box 220.

The method involves monitoring each pump for flow rate changes, flow blockages and electrical faults as shown in box 224.

The method involves modifying pump flow rates when pump flow rates rise above or fall below preset limits due to flow rate changes, flow blockages and electrical faults, as shown in box 228.

The method involves measuring an amount of chemical removed from each chemical tote at preset time periods during operation of the pumps, as shown in box 232.

The method involves comparing removed chemical from each chemical tote to expected quantities of removed chemical during operation, as shown in box 236.

EXAMPLE—METHOD FOR USING AN AUTOMATED WATER TREATMENT TRAILER AND PROCESSING MULTIPLE FLUIDS SIMULTANEOUSLY

For two fluids. The first fluid is a biocide.

The second fluid is stabilized chlorine dioxide.

The automated water treatment trailer is an 8 foot by 16 foot frame with two axles, with two tires per axle, a 3 foot long tongue for connecting the frame to a Ford F 150 pick up truck.

A base is mounted on the frame and is made from plywood creating a floor.

Four connected walls are mounted around the entire base.

A weatherproof top engages each of the plurality of connected walls opposite the base forming an enclosure that is 8 feet wide by 16 feet long by 7 feet high.

Two locking doors are used with the enclosure.

A first locking door can be mounted into the wall at the back of the automated water treatment trailer. The first door can be 6.5 feet high and 7.5 feet wide. The first locking door is hinged.

The second locking door can be mounted in a side-connected wall. The second locking door can be 6.5 feet high and 4 feet wide.

Two discharge ports 30 a-30 b are mounted in the same connected wall as the second door.

Two suction ports 32 a-32 b are mounted in same connected wall.

Each suction port connects to a chemical tote mounted on at least one adjacent structure. The suction port pulls chemicals from the chemical tote. One suction ports can connect to chlorine dioxide chemical totes and two suction ports can connect to biocide chemical totes.

A manifold is mounted to a water pipe and in fluid connection with two discharge ports. The manifold is configured to control flow fluid from the two discharge ports into a water pipe.

A charging port 34 is mounted in one of the connecting walls for charging simultaneously, two client devices from outside the enclosure.

Two pumps mounted in the enclosure and connected in parallel, pull chemical from the chemical totes and flow the chemical to the plurality of discharge ports simultaneously.

A controller that is a computer is in communication with each of the pumps and with a network, which in this example, is the Internet to communicate with at least one client device for remote monitoring and control.

Two pressure gauges are used to measure pressure on fluid flowing from each pump. Each pressure gauge is in communication with the controller.

A power supply that is a generator that generates AC 110 volt current electrically connects to each of the pumps, as well as the controller and the charging port.

Two valves, which in this case are ball valves, are used. Each valve fluidly engages one of the plurality of suction ports.

Two back pressure valves are used in this example. Each back pressure valve is mounted to one of the ball valves.

The automated water treatment trailer automatically provides the two different fluids at different flows by remote control and preset pressures that relate to fluid characteristics and specific gravities as well as pressure in the water pipe.

While these embodiments have been described with emphasis on the embodiments, it should be understood that within the scope of the appended claims, the embodiments might be practiced other than as specifically described herein. 

What is claimed is:
 1. An automated water treatment trailer for processing multiple fluids simultaneously, each fluid with a fluid characteristic and a specific gravity, the automated water treatment trailer comprising: a. a frame with at least one axle, and a tongue for connecting the frame to a tow vehicle; b. a base creating a floor, mounted to the frame; c. a plurality of connected walls mounted to the base; d. a weather-proof top engaging each of the plurality of connected walls opposite the base forming an enclosure; e. a pair of locking doors, each door mounted into a respective one of the plurality of connected walls; f. a plurality of discharge ports mounted in one of the connected walls; g. a plurality of suction ports equal to the quantity of the plurality discharge ports mounted in one of the plurality of connected walls, each suction port connected to a chemical tote mounted on at least one adjacent structure for pulling chemicals from the chemical tote; h. a manifold mounted to a water pipe and in fluid connection with the discharge ports configured to control flow fluid from the discharge ports into the water pipe; i. at least one charging port mounted in one of the plurality of connecting walls for charging a client device from inside or outside the enclosure, wherein the charging port connects to a power supply; j. a plurality of pumps mounted in the enclosure and connected in parallel, each a pump of the plurality of pumps configured to pull chemical from a respective one of the chemical totes and flow the chemical to a respective one of the plurality of discharge ports simultaneously; k. a controller in communication with each pump of the plurality of pumps and a network to communicate with at least one client device for remote monitoring and control; l. a plurality of pressure gauges, each pressure gauge measuring discharge fluid flowing from a pump of the plurality of pumps, each pressure gauge in communication with the controller; m. a power supply electrically connected to the plurality of first pumps, the controller and the charging port; n. a plurality of valves; each valve fluidly engaging one of the plurality of suction ports; and o. a plurality of back pressure valves, each back pressure valve mounted to one of the first valves, wherein the automated water treatment trailer is operable for automatically providing different fluid flows at remotely controllable pressures related to fluid characteristics and specific gravity and pressure in the water pipe.
 2. The automated water treatment trailer of claim 1, comprising from three to five discharge ports for simultaneously engaging the water pipe.
 3. The automated water treatment trailer of claim 1, comprising a skid mounted in the enclosure for supporting the plurality of pumps above the frame.
 4. The automated water treatment trailer of claim 1, wherein each chemical tote comprises a second valve to control flow of chemicals from the chemical tote to one of the pumps.
 5. The automated water treatment trailer of claim 1, wherein each pump comprises a pump controller with a display, a pump flow meter, a pump stroke counter, a power indicator, an increase flow button, a decrease flow button, and an alarm indicator.
 6. The automated water treatment trailer of claim 1, comprising a locking device connected to each locking door for securely locking the enclosure.
 7. The automated water treatment trailer of claim 1, comprising a respective surge protector mounted between the pump controller and the power supply for each pump of the plurality of pumps.
 8. The automated water treatment trailer of claim 1, comprising at least one brake for each axle.
 9. The automated water treatment trailer of claim 1, comprising a plurality of lights, the plurality of lights each comprising a member selected from the group: consisting of running lights, brake lights and turning lights, clearance lights, fender lights and security lights.
 10. The automated water treatment trailer of claim 1, comprising a suction conduit mounted between each chemical tote and suction port.
 11. The automated water treatment trailer of claim 1, comprising a discharge conduit mounted between each discharge port of the plurality of discharge ports and the manifold.
 12. The automated water treatment trailer of claim 1, wherein the first valves comprise valves selected from the group consisting of a ball valve, a check valve, a butterfly valve, rotary valve, or a three way valve. 